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AnalyseThisWC26 — real-time FIFA World Cup 2026 analytics & prediction

NeuNov Technologies built and deployed AnalyseThisWC26: a live platform that turns real FIFA World Cup 2026 data into match analysis, player scouting, a validated multi-model match predictor, and a from-scratch Monte Carlo simulation estimating every team’s probability of winning the tournament outright.

AnalyseThisWC26 tournament overview dashboard — latest matches, tracked stats and a live Monte Carlo winner-probability podium

Seven tools, one real dataset

Match Analysis

Every played match with head-to-head team comparison, a timeline of goals, cards and substitutions, and an estimated momentum wave derived from real shot, corner and offside event data.

Player Analysis

Per-90-normalized stats for every player across the whole tournament — including squad members who haven’t played yet — with empirical-Bayes shrinkage so limited-minutes players get a stable, defensible rating.

Group Standings

Real, live tables for all 12 groups with an interactive “what-if” predictor that recomputes each group’s remaining fixtures instantly, client-side.

Knockout Bracket

Round of 32 through the Final, resolved from real ESPN bracket data. Each unplayed tie shows a predicted winner and a confidence bar, finished matches click through to full analysis, and the whole bracket exports as a single branded, shareable image.

Multi-Model Match Predictor

Pick two teams, build an XI for each, and compare three statistical models side by side — Dixon-Coles, player-Poisson and Elo — for win/draw/loss, expected scoreline and a radar comparison, explained in plain language. Defaults to the best-performing model.

Model Track Record

A live out-of-sample leaderboard: each model is scored on real matches it was never trained on (accuracy + log-loss), so users can see which model is actually calibrated instead of trusting a black box.

Winner Probability

A Monte Carlo simulation of 10,000 full tournaments estimating each team’s title chances, recomputed after every finished match, with teams correctly zeroed out only once actually eliminated.

How it was built

1

A validated, multi-model prediction engine

Three independent statistical models run side by side — a maximum-likelihood Dixon-Coles model, the original per-90 player-Poisson model, and an Elo rating system. Each is backtested on real matches it never trained on (log-loss, Brier, accuracy vs reputation-free baselines); the best-calibrated model, Dixon-Coles at ~59% held-out accuracy, is made the default. A gradient-boosted XGBoost model that failed to beat it was deliberately dropped — validation over assertion.

2

A from-scratch Monte Carlo tournament simulator

Rather than predicting one match at a time, the platform simulates the entire rest of the tournament — every remaining group match, then the full knockout bracket — 10,000 times. Each team’s “chance of winning it all” is how often they win the Final across those simulated futures, with eliminated teams set to exactly 0% from real results rather than inferred from the simulation.

3

Reverse-engineered a major sports API’s bracket structure

FIFA’s 48-team knockout format has a notoriously complex rule for which group’s 3rd-place finisher fills which bracket slot. Instead of hand-encoding it, the pipeline empirically discovered and verified how ESPN’s API encodes each match’s bracket position — confirmed correct across every round transition through the Final.

4

Transparent, defensible methodology — not a black box

Every prediction traces back to real per-90 player performance and parameters fitted to real results. Every weight is visible, every simplification (neutral venues, a disclosed penalty-shootout proxy, tiebreak rules) is documented, and an explicit roadmap for improving accuracy is published alongside the models.

5

Serverless, infrastructure-as-code cloud deployment

A serverless-first AWS architecture — static frontend on S3 + CloudFront, Python prediction and analytics APIs on Lambda (with ECS for heavier compute) — with the entire environment defined as code in Terraform, so it’s reproducible, versioned and horizontally scalable. GitHub Actions runs end-to-end API tests and k6 load tests on every change.

6

A continuously self-refreshing data pipeline

An automated job re-scrapes finished matches, fixtures, standings and the bracket on a schedule, safely skips matches ESPN hasn’t marked final, and keeps the whole site — including the models and the win-probability simulation — current after every result. Backed by roughly a year of qualifier and friendly history across every confederation.

A closer look

AnalyseThisWC26 tournament overview dashboard with latest matches, tracked stats and a live winner-probability podium
Tournament overview — live matches, stats & winner-probability podium
AnalyseThisWC26 match predictor showing a build-an-XI lineup and the Dixon-Coles model with win/draw/loss probabilities
Multi-model match predictor (Dixon-Coles shown) with build-an-XI
AnalyseThisWC26 World Cup winner probability from a 10,000-run Monte Carlo simulation
Winner probability — 10,000-run Monte Carlo simulation
AnalyseThisWC26 knockout bracket from Round of 32 to the Final with per-match confidence bars, resolved from real ESPN data
Knockout bracket with per-match confidence, resolved from real data
AnalyseThisWC26 performance overview with team attacking xG chart and top scorers, sharpest finishers and top creators leaderboards
Performance overview — xG output & per-90 leaderboards
AnalyseThisWC26 player analysis with per-90-normalized statistics across the tournament
Player analysis — per-90 stats with small-sample shrinkage
AnalyseThisWC26 group standings table with interactive what-if match predictor
Group standings with interactive what-if predictor
AnalyseThisWC26 match analysis view with goal and card timeline and a momentum wave
Match analysis — timeline & momentum wave

Built and shipped like client work

AnalyseThisWC26 was delivered as a genuine multi-contributor effort through a standard engineering process — feature branches, pull-request review, and CI checks (automated end-to-end tests plus k6 load testing) gating every merge, with a serverless production deployment defined entirely as code in Terraform. It reflects how NeuNov approaches client work generally: real data over assumptions, methodology that’s measured rather than asserted, and production-grade delivery rather than a one-off demo.

Next.js (TypeScript)Python (pandas + scipy)Dixon-Coles / Poisson / EloS3 + CloudFrontAWS LambdaAWS ECSTerraform (IaC)GitHub Actions CIk6 load testing

Built by NeuNov Technologies with AI-assisted engineering.

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